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BMW-Toyota sports car heading towards Tokyo debut

Earlier this year, BMW and Toyota confirmed a four-part joint venture mostly focusing on increasing improving vehicle efficiency using fuel cells, lightweight materials and better battery technology. Also tucked into the announcement was a "feasibility study" for a shared platform to underpin a future midsize "sports vehicle."
In terms of the latter, it seems that things have stepped up from the feasibility stage to the conceptual stage, as Motor Trend reports we could see a pair of new sports car concepts debut later this year in at the Tokyo Motor Show. There isn't much information about the new program, but the article suggests the sports cars could be all-wheel drive hybrids, with electric motors powering the front wheels and a gas engine powering the rear wheels. While a partnership between Toyota and BMW might not lend itself to a catchy portmanteau like "Toyobaru," here's hoping it will bear fruit that is as exciting as the ones produced by the Toyota/Subaru tie up.

GT Academy returns, and why Gran Turismo 6 demands a pedal/wheel setup

The path to become a racing driver is a difficult one. It requires starting early, with karts, and then building up through the years and if you're really, really good (and really, really lucky), a team will notice you and sign you up. Or, you know, you could just become really good at Gran Turismo, and beat out other like-minded fanatics for a seat in the GT Academy.
The racing school, which culls its students from the ranks of Gran Turismo players has already pumped out successful racers, most notably, Lucas Ordoñez, who has a second and third-place finish under his belt at the 24 Hours of Le Mans. With the 2014 GT Academy kicking off April 21 and running through June 16, you could have a chance to be the next Ordoñez.
That won't be easy, though. We recently had a playthrough on GT6 the proper way - with a racing seat, pedals and a steering wheel, complete with column-mounted paddles. (Our setup looked just like the one you see above, though that image is from E3.) In other words, it was as close to driving an actual car as most console games can get.

How Toyota's 100-year textile history influenced FCV hydrogen fuel cell car

Turns out, Toyota had a surprising ace in the hole when it came to building the new fuel tanks for the FCV hydrogen fuel cell car, which is coming next year. Well before Toyota became the Toyota Motor Company, it was the Toyota Industries Corporation and it made textile looms. This is important because the main structure of the hydrogen tank is wound carbon fiber. When Toyota set out to increase the strength of the tanks to hold hydrogen stored at 10,000 psi (up from 5,000 in the previous tanks), it was able to draw on its 100-year-old history as it designed its car of the future. "A lot of that textile experience came back when we did the tank wrapping." – Justin Ward "We have a lot of experience with textiles," Justin Ward told AutoblogGreen at the 21st World Congress on Intelligent Transport Systems (ITS) in Detroit this week, "and a lot of that textile experience came back when we did the tank wrapping." On top of being able to hold the higher-pressure hydrogen, Toyota's first attempt to build its own hydrogen tank was six times faster than the industry standard, so it saved time and money as well as working better. The company will also be able to inspect its own tanks. Ward is the general manager of powertrain system control at the Toyota Technical Center and hydrogen vehicles are something he knows a lot about. The reason for the stronger, 10,000-psi tanks is because the 5,000-psi tanks only offered around 180-200 miles of range, even with four tanks in the early $129,000 FCHV Highlander hydrogen prototypes. The FCV only has two, but they will able to deliver the 300-mile range that customers told Toyota they wanted. Dropping the number of tanks not only obviously reduced the cost for the tanks themselves but also the number of valves and hoses and other components you need. Despite the benefits of higher compression, going much higher doesn't make sense. 10,000 psi is the "natural progression," Ward said, because "you start to bump up against compression inefficiencies." Think of an air compressor. When hydrogen is produced at a wastewater treatment plant or a reforming site, Ward said, is it at around ambient pressure (14 psi). That has to be raised, using compressors, all the way to 10,000 psi. "That takes energy," Ward said, "and every doubling of pressure adds another doubling of energy needed, so it starts to add up pretty fast if you go too high." Component specifications are also fine at 10,00 psi, but more difficult at higher levels.